My work lies at the intersection of multiphase flow physics, direct numerical simulation, and high-performance scientific computing.
- Compressible particle-laden turbulent flows
- Direct numerical simulation
- High Performance Computing
I am a mechanical engineer specializing in Computational Fluid Dynamics (CFD), High-Performance Computing (HPC), and Multiphase Flows. I hold a Master's degree in Computational Science and Engineering and am currently pursuing a PhD in Environmental and Energy Engineering. My research focuses on multiphase flows, with particular interest in direct numerical simulation of turbulent compressible particle laden flows.
My work lies at the intersection of multiphase flow physics, direct numerical simulation, and high-performance scientific computing.
Contributed to research on a novel textile drying technique based on pulse vacuum modulation, while also supporting undergraduate teaching in laboratory, mechanics, and CAD-based courses. This role strengthened my research, teaching, and technical communication skills in an academic environment.
Served in the Mechanical Engineering Department with responsibilities spanning laboratory instruction, equipment operation, academic support, and course-related teaching activities. I designed, demonstrated, and conducted experiments in the Fluid Mechanics Laboratory, while also managing the operation, maintenance, and inventory of laboratory equipment and consumables. My work further included preparing, supervising, and grading laboratory examinations, as well as contributing to the selection and upgrading of laboratory equipment when required.
In addition to laboratory duties, I supported teaching across several mechanical engineering courses, including Fluid Mechanics Lab, Workshop Practice Lab, Engineering Mechanics and Thermodynamics, Building Services – II, and Instrumentation and Control Engineering. This role strengthened my practical engineering foundation, laboratory management skills, and ability to support technical instruction in an academic setting.
My PhD research focuses on direct numerical simulations of compressible particle-laden turbulent flows, combining high-fidelity fluid mechanics, numerical methods, and computational modelling.
My specialization was in Applied Mechanics, with strong focus on Computational Fluid Dynamics and High-Performance Computing.
During my MSc, I worked on the numerical evaluation of dynamic stability derivatives for high-lift devices using the forced oscillation technique.
My undergraduate education built my foundation in mechanical engineering and exposed me to a wide range of areas including aerospace engineering, materials engineering, thermal and fluid sciences, design engineering, robotics, and automation.
During my studies, I developed strong interest in numerical methods and the simulation of physical phenomena.
My final year project focused on simulating buckling analysis of laminated composite shells with different cutouts under axial compression.
1. Naderian Jahromi, A., Ur Rahman, H., Özer, M. A., Ercan, O., Durmuş, Ö., Bayraktar, S., & Lazoglu, I. (2024). A novel textile drying technique via pulsed vacuum method. Drying Technology, 42(2), 212–226.
2. Rahman, H. U., Maqsood, A., Riaz, R., & Dala, L. (2021). Numerical evaluation of dynamic stability derivatives for high lift devices. In Proceedings of the 2021 International Congress of Aeronautical Sciences (ICAS), Shanghai, China.
3. Ahmad, S., Nawaz, T., Rahman, H. U., Saher, S., & Ahmed, M. (2021). Prospects of vertical axis wind turbines for urban electrification in Pakistan. In Proceedings of the 2021 International Conference on Emerging Power Technologies (ICEPT).
Modelling and Simulation
Programming Languages
Post-Processing and Analysis
Additional Technical Strengths
Microsoft Office
hamood.rahman6@gmail.com
Udine, Italy